数字农科院2.0

Characterization and gene expression patterns analysis implies BSK family genes respond to salinity stress in cotton

文献类型： 外文期刊

作者： Yuqian Lei;Yupeng Cui;Ruifeng Cui;Xiugui Chen;Junjuan Wang;Xuke Lu;Delong Wang;Shuai Wang;Lixue Guo;Yuexin Zhang;Cun Rui;Yapeng Fan;Mingge Han;Lanjie Zhao;Hong Zhang;Xiaoyu Liu;Nan Xu;Jing Wang;Hui Huang;Xixian Feng;Yanlong Xi;Kesong Ni;Menghao Zhang;Tiantian Jiang;Wuwei Ye

作者机构：

关键词： abiotic stress;BR;brassinosteroid-signaling kinase;BSK;salt stress

期刊名称： Frontiers in Genetics

ISSN： 1664-8021

年卷期： 2023 年 14 卷

页码：

收录情况： SCIE（2023版）

摘要： Identification, evolution, and expression patterns of BSK (BR signaling kinase) family genes revealed that BSKs participated in the response of cotton to abiotic stress and maintained the growth of cotton in extreme environment. The steroidal hormone brassinosteroids (BR) play important roles in different plant biological processes. This study focused on BSK which were downstream regulatory element of BR, in order to help to decipher the functions of BSKs genes from cotton on growth development and responses to abiotic stresses and lean the evolutionary relationship of cotton BSKs. BSKs are a class of plant-specific receptor-like cytoplasmic kinases involved in BR signal transduction. In this study, bioinformatics methods were used to identify the cotton BSKs gene family at the cotton genome level, and the gene structure, promoter elements, protein structure and properties, gene expression patterns and candidate interacting proteins were analyzed. In the present study, a total of 152 BSKs were identified by a genome-wide search in four cotton species and other 11 plant species, and phylogenetic analysis revealed three evolutionary clades. It was identified that BSKs contain typical PKc and TPR domains, the N-terminus is composed of extended chains and helical structures. Cotton BSKs genes show different expression patterns in different tissues and organs. The gene promoter contains numerous cis-acting elements induced by hormones and abiotic stress, the hormone ABA and Cold-inducing related elements have the highest count, indicating that cotton BSK genes may be regulated by various hormones at different growth stages and involved in the response regulation of cotton to various stresses. The expression analysis of BSKs in cotton showed that the expression levels of GhBSK06, GhBSK10, GhBSK21 and GhBSK24 were significantly increased with salt-inducing. This study is helpful to analyze the function of cotton BSKs genes in growth and development and in response to stress.

分类号：

  • 相关文献

[1]不同外源调节物质对克瑞森无核葡萄果实着色及品质的影响. 姚会东,闫威姣,李宏业,李辉,郭西智,孙军利,陈锦永,赵宝龙. 2022

[2]Screening of genes induced by salt stress from Alfalfa. Jin, Houcong,Yang, Qingchuan,Chao, Yuehui,Kang, Junmei,Li, Yan,Sun, Yan,Jin, Houcong,Jin, Hong,Margaret, Gruber.

[3]Basic PentaCysteine Gene Family in Cotton: Comprehensive Genomic Characterization and Salt Stress-responsive Gene Expression Profiling. Laviza Tuz Zahra,Fariha Qadir,Abdul Hafeez,Muhammad Saleem Chang,Maqsood Ahmed Khaskheli,Madan Lal,Mehreen Fatima,Sehar Fatima,Ali Hamza,Ayesha Khalid,Sadia Shehzad,Annas Imran,Rida Tabbusam,Waseem Sarwar,Aleena Farooq,Uswa Maryam,Muhammad Usama Javed,Pakeeza Aslam,Aliza Sarwar,Ali Hussnain Alvi,Salman Ali Suhail,Ghulam Rasool,Abdul Razzaq. 2025

[4]Mechanisms of Microorganisms Alleviating Drought and Salt Stresses in Plants. Di Feng,Wenxiang Li,Pengfei Huang,Meiying Gu,Guangmu Tang,Yanhong Ding,Gang Cao,Wanli Xu. 2025

[5]SLG controls grain size and leaf angle by modulating brassinosteroid homeostasis in rice. Feng, Zhiming,Wang, Chunming,Zhang, Long,Zhang, Shengzhong,Zhang, Huan,Yang, Chunyan,Hu, Jinlong,You, Xiaoman,Liu, Xi,Yang, Xiaoming,Jiang, Ling,Wan, Jianmin,Wu, Chuanyin,Chen, Jun,Guo, Xiuping,Zhang, Xin,Wu, Fuqing,Wan, Jianmin,Roh, Jeehee,Kim, Seong-Ki,Terzaghi, William.

[6]Auxin Transporter OsPIN1b, a Novel Regulator of Leaf Inclination in Rice (Oryza sativa L.). Zhang Y.,Han S.,Lin Y.,Qiao J.,Han N.,Li Y.,Feng Y.,Li D.,Qi Y.. 2023

[7]A 48-bp deletion upstream of LIGULELESS 1 alters rice panicle architecture. Wu, Linhua,Hu, Min,Lyu, Shuwei,Chen, Wenfeng,Yu, Hang,Liu, Qing,He, Wei,Li, Chen,Zhu, Zuofeng. 2024

[8]Changes of antioxidative enzymes and cell membrane osmosis in tomato colonized by arbuscular mycorrhizae under NaCl stress. ZhongQun, He,ChaoXing, He,ZhiBin, Zhang,ZhiRong, Zou,HuaiSong, Wang.

[9]Transcriptome And Metabolome Analyses Of T.wo Contrasting Sesame Genotypes R eveal The Crucial Biological Pathways Involved In Rapid Adaptive Response To Salt Stress. You, Jun,Yu, Jingyin,Dossa, Komivi,Li, Donghua,Wang, Linhai,Gong, Huihui,Zhang, Yanxin,Zhou, Rong,Zhang, Yujuan,Zhang, Yujuan,Wang, Xiao,Dossa, Komivi,Zhang, Xiurong. 2019

[10]Effect Of Saline Water Irrigation On Soil Moisture And Salinity And Modeling Transpiration Of Greenhouse-Grown Tomato In Response To Salt Stress. Li, Youli,Guo, Wenzhong,Yin, Shiyang,Guo, Wenzhong,Wang, Lichun,Wang, Lichun,Han, Qibiao. 2020

[11]Integration Of Proteomic And Transcriptomic P.rofiles Reveals Multiple Levels O f Genetic Regulation Of Salt Tolerance In Cotton. Geng, Xiaoli,He, Shoupu,Jia, Yinhua,Pan, Zhaoe,Gong, Wenfang,Xu, Feifei,Peng, Zhen,Du, Xiongming. 2018

[12]Isolation of the P5CS gene from reed canary grass and its expression under salt stress. Cong, L. L.,Yang, F. Y.,Liu, S. J.,Zhang, Y. W.,Cong, L. L.,Cong, L. L.,Zhang, X. Q.. 2014

[13]Comparative Proteomic Analysis Reveals Differential Root Proteins in Medicago sativa and Medicago truncatula in Response to Salt Stress. Long, Ruicai,Zhang, Tiejun,Kang, Junmei,Cong, Lili,Gao, Yanli,Yang, Qingchuan,Li, Mingna,Sun, Yan,Liu, Fengqi. 2016

[14]Effects of salt stress on ion balance and nitrogen metabolism of old and young leaves in rice (Oryza sativa L.). Wang, Huan,Shi, Decheng,Liu, Bao,Yang, Chunwu,Zhang, Meishan,Guo, Rui,Lin, Xiuyun. 2012

[15]An alfalfa (Medicago sativa L.) ethylene response factor gene, MsERF11, enhances salt tolerance in transgenic Arabidopsis. Chen, Tingting,Yang, Qingchuan,Ding, Wang,Chen, Tingting,Zhang, Xinquan,Gruber, Margaret. 2012

[16]Comparative metabolic responses and adaptive strategies of wheat (Triticum aestivum) to salt and alkali stress. Guo, Rui,Li, Feng,Yan, Changrong,Zhong, Xiuli,Liu, Qi,Xia, Xu,Li, Haoru,Yang, Zongze,Zhao, Long. 2015

[17]The Effects of Arbuscular Mycorrhizal Fungi on Reactive Oxyradical Scavenging System of Tomato Under Salt Tolerance. Huang Zhi,He Chao-xing,Zhang Zhi-bin,Huang Zhi,Zou Zhi-rong,Huang Zhi,He Zhong-qun. 2010

[18]Mycorrhizal symbiosis enhances tolerance to NaCl stress through selective absorption but not selective transport of K+ over Na+ in trifoliate orange. Wu, Qiang-Sheng,Zou, Ying-Ning,He, Xin-Hua,He, Xin-Hua. 2013

[19]Thellungiella halophila ThPIP1 gene enhances the tolerance of the transgenic rice to salt stress. Qiang Xiao-jing,Yu Guo-hong,Jiang Lin-lin,Sun Lin-lin,Zhang Shu-hui,Li Wei,Cheng Xian-guo,Sun Lin-lin,Zhang Shu-hui. 2015

[20]Relationship between the Degree of Polymerization of Chitooligomers and Their Activity Affecting the Growth of Wheat Seedlings under Salt Stress. Zhang, Xiaoqian,Li, Kecheng,Liu, Song,Xing, Ronge,Yu, Huahua,Chen, Xiaolin,Qin, Yukun,Li, Pengcheng,Zhang, Xiaoqian,Li, Kecheng,Zou, Ping.

作者其他论文 更多>>